Heat dispersing module

ABSTRACT

The present invention is related to a heat dispersing module which is designed based on the property of heat convection of the heat dispersing tube set, wherein plural fixing pieces around the heat conductor are used to fix the heat dispersing module, so that the heat conductor can absorb heat from heat source and then transmit to the heat dispersing tube set, and a fan engaged at the tube ends of the heat dispersing tube set can enhance the air convection inside the heat dispersing tube set.

FIELD OF THE INVENTION

The present invention is related to a heat dispersing module, and more particularly to a heat dispersing module which is designed based on the property of heat dispersing tube and which disperses heat through air convection.

BACKGROUND OF THE INVENTION

There are three types of heat transmission, conduction, convection and radiation. Conduction utilizes medium to transmit heat from high temperature to low temperature, convection is formed by circular flowing of heated liquid (air or water) which is caused by density variation, and radiation can transmit heat without any medium. For liquid, the major and most effective manner to transmit heat is convection.

Please refer to FIG. 1, the conventional heat dispersing structure 1 a employs conduction concept to perform heat dispersing, so that the structure thereof is composed of an open-up structure, formed by arranged plural fins 13 a, and a heat conductor 11 a, and is fixed on the heat source by slice fixing piece 12 a. The open-up structure such as fins 13 a are formed to increase the surface areas contacting with air as far as possible. However, after the heat conductor 11 a transmits the heat to the fins 13 a, the heated air will stay around the gaps of the fins 13 a and not disperse, so that it has to utilize additional accessories, such as fan, to increase the flowing of air, thereby achieving the effect of heat dispersing.

Theoretically, for heat source and the heat conductor 11 a, although this kind of heat dispersing structure 1 a is capable of heat transmission, it still has many limitations:

First, the heat dispersing manner of the heat conductor 11 a: Since the heat from the heat conductor 11 a only can be dispersed by fins 13 a, it is very easy to cause baking phenomenon.

Secondary, the shape and direction of the heat conductor 11 a: For achieving better heat dispersing effect, the fins 13 a are usually disposed at the normal direction of the heat conductor 11 a, but it might also cause a short route of the airflow formed by fan, so that air convection can not work effectively.

Further, the problem of noise: Since the flow route driven by fan is short and the airflow can not inhale and exhale smoothly, when airflow passes through or hits the fins 13 a or the heat conductor 11 a, additional noises will be produced.

Finally, the limited life time of the heat dispersing structure 1 a: Because the conventional heat dispersing structure 1 a, which has larger surface area and closely arranged fins 13 a, might easily be attached by dusts due to contact or static electricity, the efficiency of heat transmission will be influenced directly, and further, if being under a bad environment or operating for a long time, the fan might even stuck which not only blocks airflow, but also reduces the service life thereof.

Hence, the conventional heat dispersing structure is mainly disadvantageous that:

1. In the conventional open-up heat dispersing structure, the shapes of the fixing piece and the heat conductor are too complicated which accordingly increase the manufacturing cost.

2. In the conventional open-up heat dispersing structure, plural fins are arranged closely, so that the air flowing caused by fan might have disordered directions, thereby many disturbances and vortexes may form turbulence, which reduces the efficiency of heat dispersing by convection and causes baking phenomenon.

3. The conventional heat dispersing structure needs to rely on additional accessories, such as fan, to produce airflow and generate convection.

4. The air flowing of the conventional heat dispersing structure is not smooth and is easy to cause noise.

5. The conventional heat dispersing structure is easily attached by dusts which might influence the heat conduction and reduce the service life thereof.

SUMMARY OF THE INVENTION

The object of the present invention is to improve the conventional heat dispersing structure, which does not conform to the character of the heat convection of airflow, by providing a heat dispersing module which is mainly composed of heat dispersing tubes which utilizes heat convection to disperse heat.

For achieving the object described above, the present invention provides a heat dispersing tube set which is mainly composed of tubular heat dispersing structures provided by the same applicant and designed based on the character thereof.

A heat dispersing module is disclosed including a heat conductor, plural fixing pieces, a heat dispersing tube set and a fan, wherein the fixing pieces are locked around the heat conductor, the heat dispersing tube set is fixedly mounted on the heat conductor, and the tube ends of the heat dispersing tube set is engaged with the fan by tenons.

Moreover, since the heat dispersing medium is air and the heat dispersing manner is convection, according to the property of the heat dispersing tube, the produced heat can be gathered in the heat dispersing tube, and then, the fan can enhance the air convection for further heat dispersing.

The present invention is characterized in that: the air flowing direction provided by fan is along the direction of the heat dispersing tube set, so that the airflow inside the heat dispersing tube set is smooth, thereby reducing noise production and dust attachment; the contact area between the heat conductor and the heat dispersing tube set is large and suitable for heat conduction; the structures of heat conductor and fixing pieces are simple with low manufacturing cost; and the heat dispersing tube set itself can actively produce heat convection even when the fan is not working.

Consequently, the present invention is advantageous that:

1. The heat dispersing module provides simple structure and low manufacturing cost which are both suitable for mass production.

2. The heat dispersing module can effectively guide air flowing for reducing turbulence and can disperse heat by the convection manner which conforms to liquid property.

3. The heat dispersing module can produce forced air convection to increase heat dispersing efficiency.

4. The heat dispersing module produces stable and smooth airflow with small noise and provides great maintaining property.

5. The heat dispersing module fixes the fan by tenons for facilitating exchanging and maintenance.

6. The structure of the heat dispersing tubes in the heat dispersing module can actively produce air convection and have a long life time.

BRIEF DESCRIPTION OF THE DRAWINGS

The foregoing aspects and many of the attendant advantages of this invention will be more readily appreciated as the same becomes better understood by reference to the following detailed description, when taken in conjunction with the accompanying drawings, wherein:

FIG. 1 is a schematic view showing the conventional heat dispersing structure;

FIG. 2 is a three-dimensional drawing showing the present invention;

FIG. 3 is a schematic view showing the assembly of the present invention;

FIG. 4 is a three-dimensional drawing showing the heat conductive pieces in a preferred embodiment of the present invention;

FIG. 5 is a schematic view showing the assembly of the heat conductive pieces in a preferred embodiment of the present invention;

FIG. 6 is a schematic view showing the assembly of the air duct in a preferred embodiment of the present invention;

FIG. 7 is a three-dimensional drawing showing the application of two air ducts in a preferred embodiment of the present invention; and

FIG. 8 is a schematic view showing the application of heat conductive pieces and two air ducts in a preferred embodiment of the present invention.

DESCRIPTION OF THE PREFERRED EMBODIMENT

Please refer to FIG. 2 and FIG. 3. The present invention provides a heat dispersing module 1 including a heat conductor 2, plural fixing pieces 3, a heat dispersing tube set 4 and a fan 5, wherein:

The heat conductor 2 is a block having a plane surface 21 at the top thereof and plural fixing slots 22 mounted therearound with locking holes 221 passing therethrough.

Each fixing piece 3 has a locking hole 31 mounted at one end thereof for penetrating a locking element, such as a screw, which further penetrates the locking hole 221 of the fixing slot 22 of the heat conductor 2, so as to lock the fixing piece 3 in the fixing slot 22 of the heat conductor 2.

The heat dispersing tube set 4 is stacked by plural heat dispersing tubes 41, wherein one tube end 42 is formed to have inward indentation, for preventing from damaging blades or rotator of the fan 5 and the other tube end is formed to be straight, and the interior of each heat dispersing tube 41 is formed to have through channels 411, and further, one tube set side 43 of the heat dispersing tube set 4 is coated by material with low heat resistance, such as tin, for attaching to the upper surface plane 21 of the heat conductor 2, and two tube set sides 43 adjacent to the tube ends 42 are formed to have engaging troughs 44.

The fan 5 has a frame 51 whose two sides respectively have a tenon 53 corresponding to the engaging troughs 44, and the fan 5 is fixed to the heat dispersing tube set 4 by the output side 52 facing toward the tube ends 42 and the tenons 53 fixed and engaged in the engaging troughs 44.

Please further refer to FIG. 2 and FIG. 3. The present invention utilizes fixing pieces 3 to lock and fix the heat dispersing module 1 and to closely contact one side of the heat conductor 2 to the heat source, and the other side of the heat conductor 2 has the heat dispersing tube set 4 attached thereon, so that the heat from the heat source can be conducted to the heat dispersing tube set 4 via the heat conductor 2, and as the heat dispersing tube set 4 receives heat, the heat will be transmitted to the channels 411 inside the heat dispersing tubes 41 to cause air convection in the tube. And, as the fan 5 located at the tube ends 42 is running, the air flowing can be strengthened and passes through the heat dispersing tube set 4 so as to enhance the heat dispersing effect.

Please refer to FIG. 4 and FIG. 5. In one embodiment of the present invention, plural heat conductive pieces 23 are fixedly mounted at the midline of the upper surface of the heat conductor 2 and plural bent heat conductive pieces 24 are fixedly mounted at two opposite sides at the midline of the upper surface of the heat conductor 2 respectively, so as to form a supporting rack for not only enhancing structure stability but also increasing heat conducting effect. For mounting these conductive pieces, the upper surface plane 21 of the heat conductor 2 is formed to have plural indentations 211 at the midline thereof and plural troughs 212 respectively at the two opposite sides thereof, and all the heat conductive pieces 23, 24 are coated by material of low heat resistance, such as tin, for respectively attaching to the indentations 211 and troughs 212, thereby the heat dispersing tube set 4 can be placed between the upper surface plane 21 of the heat conductor 2 to obtain a better fixing stability and heat dispersing effect.

Please refer to FIG. 6. According to another embodiment of the present invention, a bendable air duct 6 can be further mounted at the tube ends 42 of the heat dispersing tube set 4. One end of the air duct 6 has tenons 61 mounted thereon for fixing and engaging with the engaging troughs 44 of the heat dispersing tube set 4. Alternatively, as shown in FIG. 7, the bendable air duct 6 also can be mounted between the fan 5 and the heat dispersing tube set 4 for communicate the heat dispersing tube set 4 to ventilation.

Please refer to FIG. 8 which shows the combination of both embodiments described above. The heat conductive pieces 23, 24 are mounted on the heat conductor 2 for engaging the heat dispersing tube set 4, and the air ducts 6 and the fan 5 are also connected to the heat dispersing tube set 4, so that the heat conducting efficiency between the heat conductor 2 and the heat dispersing tube set 4 can be increased and the airflow of the heat dispersing tube set 4 also can be enhanced for improving heat dispersing effect.

It is to be understood, however, that even though numerous characteristics and advantages of the present invention have been set forth in the foregoing description, together with details of the structure and function of the invention, the disclosure is illustrative only, and changes may be made in detail, especially in matters of shape, size, and arrangement of parts within the principles of the invention to the full extent indicated by the broad general meaning of the terms in which the appended claims are expressed. 

1. A heat dispersing module, comprising a heat conductor, plural fixing pieces, a heat dispersing tube set and a fan, wherein: the heat conductor is a block having plural fixing slots mounted therearound; plural fixing pieces are locked in the fixing slots around the heat conductor; the heat dispersing tube set is stacked by plural heat dispersing tubes and is disposed on the heat conductor, and two tube set sides adjacent to the tube ends are formed to have engaging troughs; and the fan has a frame whose two sides respectively have a tenon corresponding to the engaging troughs, and the fan is fixed to the heat dispersing tube set by the output side facing toward the tube ends and the tenons fixed and engaged in the engaging troughs.
 2. The heat dispersing module as claimed in claim 1, wherein the heat conductor has a surface plane at the top thereof.
 3. The heat dispersing module as claimed in claim 1, wherein the fixing slots of the heat conductor have locking holes mounted therethrough.
 4. The heat dispersing module as claimed in claim 1, wherein one tube end of the heat dispersing tube set is formed to have inward indentation
 5. The heat dispersing module as claimed in claim 1, wherein the upper surface of the heat conductor has heat conductive pieces mounted thereon for fixing the heat dispersing tube set so as to enhance heat dispersing effect and also structure stability.
 6. The heat dispersing module as claimed in claim 1, wherein the upper surface of the heat conductor has bent heat conductive pieces mounted thereon for fixing and engaging the heat dispersing tube set so as to enhance heat dispersing effect and also structure stability.
 7. The heat dispersing module as claimed in claim 1, wherein an air duct is further mounted at the tube ends of the heat dispersing tube set.
 8. The heat dispersing module as claimed in claim 7, wherein the air duct is bendable for communicating the heat dispersing tube set to ventilation.
 9. The heat dispersing module as claimed in claim 1, wherein an air duct is mounted between the fan and the heat dispersing tube set.
 10. The heat dispersing module as claimed in claim 9, wherein the air duct is bendable. 